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Digital Information Platform Overview

Contents

DIP Overview image image containing text, aircraft, and clouds.
NASA / ATM-X

Challenges

Current day air traffic management systems are segmented by domain, operator groups, and solution provider groups, which creates a challenge for those seeking a system wide solution. Future airspace operations will be increasingly more complex as new types of aircraft (such as on-demand air taxis and autonomous drone deliveries) intensify traffic density. This will require the aviation community to embrace a wider range of managing aircraft operations. Traditional systems were built in an era when rapid technologies were not available or commonplace. Changing the large and complex system-of-systems in the National Airspace System (NAS) is an overwhelmingly complex integration challenge, which often requires significant domain knowledge about operations and data.

Project Overview

The Digital Information Platform (DIP) team aims to tackle these challenges and address the stakeholder needs. The subproject is one of four contained within the Air Traffic Management – eXploration (ATM-X) project. The primary focus of DIP is to develop and demonstrate a digital service-oriented framework to enable increasingly safe and efficient operations for today and the future airspace system.

The subproject is actively partnering with flight operators, new entrants, service providers, data integrators, platform providers, and other aviation stakeholders who are committed to building and evaluating a community-supported system of digital services to enhance future aviation operations. Four operational evaluations missions are being conducted to validate concepts that will improve operational efficiency and predictability. 

The DIP team is embracing advances in technology through cloud-based infrastructures and artificial intelligence/machine learning (AI/ML) to provide improved decision making tools to flight operators that are more collaborative and scalable in nature. more collaborative, integrated, and scalable way.

Concept Overview

Bottom left shows the airport and air traffic control tower with an aircraft on final approach and flying overhead. The upper left depicts multiple cloud-based microservices. On the right left, various data sources supply aviation data to the fuser and AI/ML models, enabling decision support capabilities for users.
The DIP subproject seeks to develop and demonstrate a service-oriented system to enable increasingly safe and efficient operations for today and for the future.
NASA / ATM-X

DIP Research Areas

Cloud-based microservices infrastructure – The subproject plans to define an interoperability framework that will allow disparate software services to connect and exchange data relying on standards and protocols across various platforms. In addition, a cybersecurity management framework will be defined to assure the confidentiality, integrity, authenticity, and availability of NASA and partner data assets available on or through the platform.

The box on the left represents a monolithic decision support tool previously used for the development and testing of the Collaborative Digital Departure Reroute (CDDR). In the center, the monolithic tool has been transformed into a service-oriented architecture composed of multiple AI/ML services. The image on the right illustrates the end users of the tool, including flight operators and air traffic control using the CDDR services via the Cloud.
Legacy systems are broken into reusable services which can be combined in different ways to serve the end users.
NASA / ATM-X / DIP

Digital trajectory management – The DIP team is conducting a series of operational evaluations with its airline partners, the aviation industry and the Federal Aviation Administration to showcase digital trajectory management capabilities in real operational environments. Alternate route options are being evaluated, which reduce the pre- and post-departure delays at both the individual flight and fleetwide levels.

The left illustrates the Dallas/Ft. Worth TRACON airspace highlighting departure fixes along the airspace boundary. One of the fixes on the east side of the airspace – through which the filed flight plan route is intended to pass, is affected by a Miles-in-Trail (MIT) restriction. The CDDR provides the alternative route to a different departure fix to the south, allowing airlines to reduce delays and fuel consumption and emissions. The right graphic shows two flight paths from the origin to the destination airport: originally filed flight plan route versus the alternative route recommended by the CDDR tool.
The pre-departure rerouting tool suggests alternate routes which help airlines reduce delays and fuel consumption.
NASA / ATM-X / DIP

AI/ML use case exploration – The use of AI/ML aviation services offer robust and scalable solutions that can significantly reduce the deployment costs of decision support tools for flight operators and service providers compared to legacy physics-based systems. The subproject has developed and released open-source software for AI/ML solutions that can be readily adopted by the aviation industry and combined in various ways to meet their specific needs.

Multiple computer screens display the Collaborative Digital Departure Reroute (CDDR) tool in operation, showing traffic in the North Texas terminal airspace. Among the displays are runway timelines, a terminal airspace status map, and the Trajectory Option Set (TOS) web table.
NASA’s AI/ML decision support tools operating in the North Texas airspace.
NASA / ATM-X / DIP

Digital Information Platform

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Last Updated
Jun 18, 2025
Editor
Lillian Gipson
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